Veranstaltungsverzeichnis

Institute of Physics

• English course offer for exchange students :
• Faculty of Mathematics and Science
• Institute of Physics

Summer semester 2025 83 Seminars

VAK Course Number	Title	Type Lecture Preliminary studies Advanced courses Practical course Colloquium Research group Workgroup Project group Council conference Internship Language course Subject didactics Excursion Tutorial Committee	SWS Semester weekly hours	Teachers	Degree
5.06.M207	Photovoltaic Systems Thursday: 14:00 - 18:00, weekly (from 10/04/25) Description:	Lecture	4	Dr. Martin Knipper	Master
5.06.M215	Future Power Supply (Lecture) Monday: 14:00 - 16:00, weekly (from 28/04/25) Description:	Lecture	2	Prof. Dr. Carsten Agert Babak Ravanbach	Master
5.04.994	Basics in Project Management The course times are not decided yet. Description: Organization of an Engineering Physics booth at the international summer fest Organization of an Engineering Physics booth at the international summer fest	Seminar	-	Martin Reck Dr. rer. nat. Sandra Koch	Bachelor
5.04.4675	Optical Simulation and Modelling (Zemax) Monday: 16:00 - 18:00, weekly (from 07/04/25) Description: lecture and project lecture and project	Lecture	-	Prof. Dr. Walter Neu, Dipl.-Phys.	Master
5.04.232a Ü1	Exercise to Signal Processing Wednesday: 12:00 - 14:00, weekly (from 09/04/25) Description:	Exercises	1	Prof. Dr. Philipp Huke	Bachelor
5.04.656	Seminar Advanced Topics in Engineering Physics Tuesday: 16:00 - 18:00, weekly (from 08/04/25) Description: Participation: 1st -3rd semester. Presentation: Master thesis work in progress or finished; at least one successfully completed specialization module. Bachelor students are welcome as well. Participation: 1st -3rd semester. Presentation: Master thesis work in progress or finished; at least one successfully completed specialization module. Bachelor students are welcome as well.	Seminar	2	Prof. Dr. Walter Neu, Dipl.-Phys.	Master
5.04.4643	Adaptive systems for speech signal processing Monday: 12:00 - 14:00, weekly (from 07/04/25) Monday: 14:00 - 16:00, weekly (from 07/04/25) Description: The students gain a broad operational perspective for the design of speech adaptive systems and respective algorithms with a particular focus on adaptive digital filters. The important NLMS, RLS, FDAF and Kalman-Filter algorithms can be derived from fundamental principles. Diverse applications from speech and acoustic signal processing deliver practical insight into the utilization of the fundamentals, for instance, in acoustic noise reduction, echo cancellation, dereverberation, acoustic channel estimation and equalization. However, the acquired knowledge allows for a broader interpretation in the context of engineering and physics. The computer exercises of larger scale will teach the students to argue, select and evaluate algorithms for the problem at hand. By discussion in the panel, students learn to demonstrate, defend and trade their solution against others. Theoretical exercises finally deliver the ability to argue and prove a speech processing design with the appropriate vocabulary. The students gain a broad operational perspective for the design of speech adaptive systems and respective algorithms with a particular focus on adaptive digital filters. The important NLMS, RLS, FDAF and Kalman-Filter algorithms can be derived from fundamental principles. Diverse applications from speech and acoustic signal processing deliver practical insight into the utilization of the fundamentals, for instance, in acoustic noise reduction, echo cancellation, dereverberation, acoustic channel estimation and equalization. However, the acquired knowledge allows for a broader interpretation in the context of engineering and physics. The computer exercises of larger scale will teach the students to argue, select and evaluate algorithms for the problem at hand. By discussion in the panel, students learn to demonstrate, defend and trade their solution against others. Theoretical exercises finally deliver the ability to argue and prove a speech processing design with the appropriate vocabulary.	Lecture	-	Prof. Dr. Gerald Enzner	Master
5.04.649	Application of Lasers and Optics Monday: 12:00 - 16:00, fortnightly (from 14/04/25) Description: Part I: The students get a deeper knowledge about the fundamental physical processes of light-matter interaction. They are furthermore enabled to build advanced optical resonators that emit short and ultrashort laser pulses. They are trained to distinguish between the different laser types and designs for industrial, and scientific purposes as well as consumer electronics. The students will additionally get a basic knowledge on beam guiding techniques and safety requirements. The excursion to the fair "LASER World of PHOTONICS" in Munich is part of this course.“ Part I: The students get a deeper knowledge about the fundamental physical processes of light-matter interaction. They are furthermore enabled to build advanced optical resonators that emit short and ultrashort laser pulses. They are trained to distinguish between the different laser types and designs for industrial, and scientific purposes as well as consumer electronics. The students will additionally get a basic knowledge on beam guiding techniques and safety requirements. The excursion to the fair "LASER World of PHOTONICS" in Munich is part of this course.“	Lecture	-	Prof. Dr. Martin Silies	Bachelor
5.04.4234	Wind Physics Measurement Project Monday: 12:00 - 14:00, weekly (from 07/04/25) Description: Case study like problems based on real wind data will be solved on at least four important aspects in wind physics. The course will comprise lectures and assignments as well as self-contained work in groups of 3 persons. The content consist of the following four main topics, following the chronological order of the work process: Data handling: - measurements - measurement technology - handling of wind data - assessment of measurement artefacts in wind data - preparation of wind data for further processing Energy Meteorology: - geographical distribution of winds - wind regimes on different time and length scales - vertical wind profile - distribution of wind speed - differences between onshore and offshore conditions. Measure – Correlate – Predict (MCP): - averaging of wind data - bin-wise averaging of wind data - long term correlation and long term correction of wind data - sources of long term wind data. LIDAR (Light detection and ranging): - analyses and conversion of data from LIDAR measurements Case study like problems based on real wind data will be solved on at least four important aspects in wind physics. The course will comprise lectures and assignments as well as self-contained work in groups of 3 persons. The content consist of the following four main topics, following the chronological order of the work process: Data handling: - measurements - measurement technology - handling of wind data - assessment of measurement artefacts in wind data - preparation of wind data for further processing Energy Meteorology: - geographical distribution of winds - wind regimes on different time and length scales - vertical wind profile - distribution of wind speed - differences between onshore and offshore conditions. Measure – Correlate – Predict (MCP): - averaging of wind data - bin-wise averaging of wind data - long term correlation and long term correction of wind data - sources of long term wind data. LIDAR (Light detection and ranging): - analyses and conversion of data from LIDAR measurements	Lecture	-	Prof. Dr. Martin Kühn Matthias Wächter Dr. Gerald Steinfeld, Dipl.-Met. Dr.-Ing. Ignace Ransquin	Master
5.04.4074	Computational Fluid Dynamics II Tuesday: 12:00 - 16:00, weekly (from 27/05/25) Description: Deeper understanding of the fundamental equations of fluid dynamics. Overview of numerical methods for the solution of the fundamental equations of fluid dynamics. Confrontation with complex problems in fluiddynamics. To become acquainted with different, widely used CFD models that are used to study complex problems in fluid dynamics. Ability to apply these CFD models to certain defined problems and to critically evaluate the results of numerical models. Content: CFD II: RANS, URANS, LES, DNS, filtering / averaging of Navier- Stokes equations, Introduction to different CFD models, Application of these CFD models to defined problems from rotor aerodynamics and the atmospheric boundary layer. Lehrsprache: "This course will be held in English. If no international students should participate, the course language can also be switched to German." Deeper understanding of the fundamental equations of fluid dynamics. Overview of numerical methods for the solution of the fundamental equations of fluid dynamics. Confrontation with complex problems in fluiddynamics. To become acquainted with different, widely used CFD models that are used to study complex problems in fluid dynamics. Ability to apply these CFD models to certain defined problems and to critically evaluate the results of numerical models. Content: CFD II: RANS, URANS, LES, DNS, filtering / averaging of Navier- Stokes equations, Introduction to different CFD models, Application of these CFD models to defined problems from rotor aerodynamics and the atmospheric boundary layer. Lehrsprache: "This course will be held in English. If no international students should participate, the course language can also be switched to German."	Lecture	2	Dr. Bernhard Stoevesandt Dr. Hassan Kassem	Master
5.04.4065	Advanced Wind Energy Meteorology Wednesday: 12:00 - 14:00, weekly (from 09/04/25) Description:	Lecture	-	Dr. Gerald Steinfeld, Dipl.-Met.	Master
5.04.4686	Astro Instrumentation The course times are not decided yet. Description: Astronomical Observations. Please, be aware that you have to fund <200€ on your own. Astronomical Observations. Please, be aware that you have to fund <200€ on your own.	Study trip	-	Prof. Dr. Philipp Huke	Master
5.04.4671	Tools in Advanced Photonics Wednesday: 09:00 - 13:00, weekly (from 16/04/25), Labore HS Emden Dates on Friday, 11.04.2025 09:00 - 10:00 Description: Teaching and learning in this component will be through "hands on" demonstration. This form of teaching and learning is important in acquiring competence and skills and advancing understanding by practical experience. The students learn to consider specific key instrument types in current usage in the field of photonics, laser and optics. This will be delivered in a lab course study format with each instrument being evaluated in terms of operating principle, design, and signal processing. Content: Laser design and concepts in photonics, solid state lasers, tunable laser systems, gas lasers, industrial laser systems, laser material processing, micromachining, diode lasers, mode locked fiber lasers, microscopy and photonics instrumentation. Important: This is a practical lab course which is not offered in Oldenburg, but at the Universtity of Applied Sciences in Emden. Laboratory experiments are performed in groups of two students each. In order to be able to participate in this course, it is mandatory to have a laser safety training. I will post time and location of the laser safety training and send an additional mail. Teaching and learning in this component will be through "hands on" demonstration. This form of teaching and learning is important in acquiring competence and skills and advancing understanding by practical experience. The students learn to consider specific key instrument types in current usage in the field of photonics, laser and optics. This will be delivered in a lab course study format with each instrument being evaluated in terms of operating principle, design, and signal processing. Content: Laser design and concepts in photonics, solid state lasers, tunable laser systems, gas lasers, industrial laser systems, laser material processing, micromachining, diode lasers, mode locked fiber lasers, microscopy and photonics instrumentation. Important: This is a practical lab course which is not offered in Oldenburg, but at the Universtity of Applied Sciences in Emden. Laboratory experiments are performed in groups of two students each. In order to be able to participate in this course, it is mandatory to have a laser safety training. I will post time and location of the laser safety training and send an additional mail.	Practical training	4	Ulrich Teubner Markus Schellenberg Sabine Tiedeken Volker Braun Stefan Wild Thomas Schüning Lars Jepsen Prof. Dr. Philipp Huke Prof. Dr. Martin Silies Marcel Stamm	Master
5.06.M216	Future Power Supply (Seminar) Wednesday: 14:00 - 16:00, weekly (from 09/04/25) Description:	Seminar	2	Prof. Dr. Carsten Agert Babak Ravanbach	Master
5.04.616 Ü2	Exercises Mathematical Methods for Physics and Engineering II Wednesday: 10:00 - 12:00, weekly (from 16/04/25) Description:	Exercises	2	Henri Gode Klaus Brümann Anselm Lohmann	Bachelor
5.04.4239	Wind Physics Students` Laboratory- Wind Turbine Rotor in Turbulent Inflow Tuesday: 08:00 - 12:00, weekly (from 08/04/25) Description: The “Wind Physics Student's Lab" aims to foster the learning process by own research activities of the students in wind physics and additionally to build up skills for scientific and experimental work and scientific writing. Therefore, this course is also intended as preparation for the master thesis. The course is organized as seminar with integrated work in the laboratory. The students will investigate an individual, self-formulated research question and will be guided by the supervisors through the research-based learning process. The work in groups and discussion of solutions aims to improve skills in team working. In order to introduce the students to current wind energy research, the course is offered in different versions. These versions represent the work of different research groups at ForWind -University Oldenburg. The seminars will be offered in subsequent semesters or in parallel. The seminar “Wind turbine rotor in turbulent inflow" is connected to the scientific work of the research group Turbulence, Wind Energy and Stochastics (TWIST). In this seminar, turbulent wind fields and their effects on wind turbines will be investigated. Students learn to measure wind flows in high resolutions and how turbulence can be described, investigated and evaluated for different purposes. The students gain a deep understanding of the phenomenon of turbulence. They perform own experiments in a wind tunnel with an active turbulence grid. They learn to establish their own research questions and are encouraged to develop own methods. The seminar consists of three main phases: 1st phase: Preparational learning • building up basic competences • introduction to current research • practical measurements of flows with different sensors in the wind tunnel • evaluation methods of data of turbulent wind flows 2nd phase: Research-based learning • defining own research questions • defining an experimental strategy • planning the experiment • set-up, execution, data acquisition and decommissioning of experiments 3rd phase: Evaluation and documentation • evaluating the experiments • documentation with a short report (paper) • presentation. The “Wind Physics Student's Lab" aims to foster the learning process by own research activities of the students in wind physics and additionally to build up skills for scientific and experimental work and scientific writing. Therefore, this course is also intended as preparation for the master thesis. The course is organized as seminar with integrated work in the laboratory. The students will investigate an individual, self-formulated research question and will be guided by the supervisors through the research-based learning process. The work in groups and discussion of solutions aims to improve skills in team working. In order to introduce the students to current wind energy research, the course is offered in different versions. These versions represent the work of different research groups at ForWind -University Oldenburg. The seminars will be offered in subsequent semesters or in parallel. The seminar “Wind turbine rotor in turbulent inflow" is connected to the scientific work of the research group Turbulence, Wind Energy and Stochastics (TWIST). In this seminar, turbulent wind fields and their effects on wind turbines will be investigated. Students learn to measure wind flows in high resolutions and how turbulence can be described, investigated and evaluated for different purposes. The students gain a deep understanding of the phenomenon of turbulence. They perform own experiments in a wind tunnel with an active turbulence grid. They learn to establish their own research questions and are encouraged to develop own methods. The seminar consists of three main phases: 1st phase: Preparational learning • building up basic competences • introduction to current research • practical measurements of flows with different sensors in the wind tunnel • evaluation methods of data of turbulent wind flows 2nd phase: Research-based learning • defining own research questions • defining an experimental strategy • planning the experiment • set-up, execution, data acquisition and decommissioning of experiments 3rd phase: Evaluation and documentation • evaluating the experiments • documentation with a short report (paper) • presentation.	Seminar	-	Dr. Michael Hölling Thomas Messmer	Master
5.04.471	Quantum Structure of Matter Thursday: 14:00 - 16:00, weekly (from 10/04/25) Friday: 10:00 - 12:00, weekly (from 11/04/25) Description:	Lecture	4	Prof. Dr. Christopher Gies	Bachelor
5.04.4679	Advanced Hyperloop Studies Monday: 18:00 - 19:00, weekly (from 07/04/25), weekly Seminar Tuesday: 16:00 - 18:00, weekly (from 08/04/25) Description: Dies ist die Master-Veranstaltung. Das erste Treffen findet nach Absprache per Mail statt. Die Kommunikation erfolgt virtuell. Dies ist die Master-Veranstaltung. Das erste Treffen findet nach Absprache per Mail statt. Die Kommunikation erfolgt virtuell.	Forschungsseminare	-	Thomas Schüning Prof. Dr. Walter Neu, Dipl.-Phys. Lukas Eschment	Master
5.06.M201 Ü	Exercise to Sustainability of Renewable Energy Wednesday: 10:00 - 12:00, weekly (from 09/04/25) Description: Content: - Introduction to the term sustainability - Strategies and dimensions in sustainability research and discussion: efficiency, consistency and sufficiency, as well as related concepts (e.g. rebound) - Growth/De-growth and decoupling of growth and emission - Life-cycle analysis - Thermodynamic methods: exergy, EROI and related approaches - Social indicators and their relation to energy use - Economic indicators and related paradigms in the context of energy consumption - Case study on the real life renewable energy project DESERTEC After successful completion of the seminar students should be able to: - analyse, and critically compare and evaluate selected sustainability concepts and strategies addressing renewable energy systems - critically appraise and analyse the principles and implications of selected scientific methods and theories for a sustainable energy supply - critically evaluate the suitability and meaningfulness of different sustainability indicators, theories, methods and practices regarding their role and impact for developed countries, on the one hand, and developing countries, on the other - perform an integral assessment, involving several relevant aspects related to the sustainability of a particular real-life renewable energy project as well as identify the main barriers, potentials and driving factors for improving it - perform a literature review on selected sustainability approaches to a professional standard and extract the main related conclusions, and arguing critically on them - present data and information both verbally and in the written form, including quotation to a professional standard Content: - Introduction to the term sustainability - Strategies and dimensions in sustainability research and discussion: efficiency, consistency and sufficiency, as well as related concepts (e.g. rebound) - Growth/De-growth and decoupling of growth and emission - Life-cycle analysis - Thermodynamic methods: exergy, EROI and related approaches - Social indicators and their relation to energy use - Economic indicators and related paradigms in the context of energy consumption - Case study on the real life renewable energy project DESERTEC After successful completion of the seminar students should be able to: - analyse, and critically compare and evaluate selected sustainability concepts and strategies addressing renewable energy systems - critically appraise and analyse the principles and implications of selected scientific methods and theories for a sustainable energy supply - critically evaluate the suitability and meaningfulness of different sustainability indicators, theories, methods and practices regarding their role and impact for developed countries, on the one hand, and developing countries, on the other - perform an integral assessment, involving several relevant aspects related to the sustainability of a particular real-life renewable energy project as well as identify the main barriers, potentials and driving factors for improving it - perform a literature review on selected sustainability approaches to a professional standard and extract the main related conclusions, and arguing critically on them - present data and information both verbally and in the written form, including quotation to a professional standard	Exercises	2	Andreas Günther Dr.-Ing. Herena Torio	Master
5.06.M211 Ü	Exercise to Solar Energy Meteorology Monday: 14:00 - 16:00, weekly (from 07/04/25) Wednesday: 14:00 - 16:00, weekly (from 09/04/25) Description: Lecturer from Fraunhofer Institute for Solar Energy Systems (ISE) The lecture addresses applications of solar energy meteorology. As a basis, most important physical laws for solar energy meteorology as well as models for solar resource assessment and forecasting are introduced. A special emphasis will be on evaluation concepts and applications. The students will learn about: • requirements for solar resource data from different applications • models and measurement devices for solar resource assessment and forecasting • benefits and drawbacks of different models • methods to assess the quality of solar resource data The lectures are combined with short exercises. In the last - seminar type - part of the course the students are asked to get a better understanding of lessons learnt by studying and presenting publications related to solar energy meteorology. Lecturer from Fraunhofer Institute for Solar Energy Systems (ISE) The lecture addresses applications of solar energy meteorology. As a basis, most important physical laws for solar energy meteorology as well as models for solar resource assessment and forecasting are introduced. A special emphasis will be on evaluation concepts and applications. The students will learn about: • requirements for solar resource data from different applications • models and measurement devices for solar resource assessment and forecasting • benefits and drawbacks of different models • methods to assess the quality of solar resource data The lectures are combined with short exercises. In the last - seminar type - part of the course the students are asked to get a better understanding of lessons learnt by studying and presenting publications related to solar energy meteorology.	Exercises	2	Dr. Jorge Enrique Lezaca Galeano Dr. Thomas Schmidt Andreas Günther	Master
5.06.M213	Wind Energy Applications - from Wind Resource to Wind Farm Applications Friday: 08:00 - 10:00, weekly (from 11/04/25) Description: The students acquire an advanced knowledge in the field of wind energy applications. Special emphasis is on connecting physical and technical skills with the know-how in the fields of logistics, management, environment, finances, and economy. Practice-oriented examples enable the students to assess and classify real wind energy projects. Special situations such as offshore wind farms and wind farms in non-European foreign countries are included to give the students an insight into the crucial aspects of wind energy also relating to non-trivial realizations as well as to operating wind farm projects. Contents: Assessment of the resource wind energy: Weibull distribution, measurement of wind speeds to determine the energy yield, fundamentals of the WAsP method, partial models of WAsP, MCP method for long-term correction of measured wind data in correlation with long-term reference data, conditions for stable, neutral and instable atmospheric conditions, wind yield assessments from wind distribution and power curve, fundamentals of determining the annual wind yield potentials of individual single-turbine units. Tracking effects and wind farms: Recovery of the original wind field in tracking flow of wind turbines, fundamentals of the Risø model, distance spacing and efficiency calculation of wind turbines in wind farms, fundamentals of offshore wind turbines, positive and negative effects of wind farms. Operating wind farms: Influences on the energy yield of the power efficiency of wind farms, three-column model of sustainability: “magic triangle”, profit optimization for increased energy production The students acquire an advanced knowledge in the field of wind energy applications. Special emphasis is on connecting physical and technical skills with the know-how in the fields of logistics, management, environment, finances, and economy. Practice-oriented examples enable the students to assess and classify real wind energy projects. Special situations such as offshore wind farms and wind farms in non-European foreign countries are included to give the students an insight into the crucial aspects of wind energy also relating to non-trivial realizations as well as to operating wind farm projects. Contents: Assessment of the resource wind energy: Weibull distribution, measurement of wind speeds to determine the energy yield, fundamentals of the WAsP method, partial models of WAsP, MCP method for long-term correction of measured wind data in correlation with long-term reference data, conditions for stable, neutral and instable atmospheric conditions, wind yield assessments from wind distribution and power curve, fundamentals of determining the annual wind yield potentials of individual single-turbine units. Tracking effects and wind farms: Recovery of the original wind field in tracking flow of wind turbines, fundamentals of the Risø model, distance spacing and efficiency calculation of wind turbines in wind farms, fundamentals of offshore wind turbines, positive and negative effects of wind farms. Operating wind farms: Influences on the energy yield of the power efficiency of wind farms, three-column model of sustainability: “magic triangle”, profit optimization for increased energy production	Lecture	2	Dr. Hans-Peter Waldl	Master
5.04.201a Ü1	Exercises to Thermodynamics and Statistics Wednesday: 16:00 - 18:00, weekly (from 16/04/25) Description:	Exercises	-	Prof. Dr. Niklas Nilius Bo-Yi Zhong, Ph.D. Erkout Ouzoun, M. Sc.	Bachelor
5.04.6611	Advanced Optical Spectroscopy Tuesday: 14:00 - 16:00, weekly (from 08/04/25) Description:	Seminar	-	Dr. rer. nat. Sandra Koch Markus Schellenberg	Master
5.06.M205	Laboratory: Performance of Renewable Energy Friday: 14:00 - 18:00, weekly (from 11/04/25) Description:	Practical training	-	Dr. rer. nat. Tanja Behrendt Andreas Günther Dr. Martin Knipper	Master
5.04.4072 Ü1	Exercises to Computational Fluid Dynamics I Thursday: 16:00 - 18:00, weekly (from 10/04/25) Description:	Exercises	-	Marcel Bock Gabriele Centurelli	Master
5.04.4258	Basics of radiation treatment planning Friday: 12:00 - 14:00, weekly (from 25/04/25) Dates on Thursday, 10.04.2025 12:00 - 14:00 Description: Radiotherapy is a medical domain characterized by close cooperation between physics and medicine. In the vast majority of cases, patients are irradiated with a linear accelerator. The goal here is to irradiate the target region as precisely as possible and to affect as little surrounding tissue as possible. Each patient receives an individual treatment plan. The process by which the linear accelerator is configured for the radiation treatment is called radiation treatment planning. The aim of the module is to provide students with a basic understanding of the theoretical principles of radiation treatment planning as well as to demonstrate different treatment planning techniques using practical examples. The module includes 8 lectures and 2 practical sessions. The practical sessions take place at Saturdays. Radiotherapy is a medical domain characterized by close cooperation between physics and medicine. In the vast majority of cases, patients are irradiated with a linear accelerator. The goal here is to irradiate the target region as precisely as possible and to affect as little surrounding tissue as possible. Each patient receives an individual treatment plan. The process by which the linear accelerator is configured for the radiation treatment is called radiation treatment planning. The aim of the module is to provide students with a basic understanding of the theoretical principles of radiation treatment planning as well as to demonstrate different treatment planning techniques using practical examples. The module includes 8 lectures and 2 practical sessions. The practical sessions take place at Saturdays.	Lecture	-	Dr. Daniela Eulenstein Prof. Dr. Björn Poppe	Master
5.04.471 Ü2	Exercises to Quantum Structure of Matter Tuesday: 18:00 - 20:00, weekly (from 15/04/25) Description:	Exercises	2	Prof. Dr. Christopher Gies TutorInnen, der Physik	Bachelor
5.04.4215 Ü1	Exercises to Machine Learning II – Advanced Learning and Inference Methods Tuesday: 10:00 - 12:00, weekly (from 15/04/25), Übung Description: The students will deepen their knowledge on mathematical models of data and sensory signals. Building up on the previously acquired Machine Learning models and methods, the students will be lead closer to current research topics and will learn about models that currently represent the state-of-the-art. Based on these models, the students will be exposed to the typical theoretical and practical challenges in the development of current Machine Learning algorithms. Typical such challenges are analytical and computational intractabilities, or local optima problems. Based on concrete examples, the students will learn how to address such problems. Applications to different data will teach skills to use the appropriate model for a desired task and the ability to interpret an algorithm’s result as well as ways for further improvements. Furthermore, the students will learn interpretations of biological and artificial intelligence based on state-of-the-art Machine Learning models. Contents: This course builds up on the basic models and methods introduced in introductory Machine Learning lectures. Advanced Machine Learning models will be introduced alongside methods for efficient parameter optimization. Analytical approximations for computationally intractable models will be defined and discussed as well as stochastic (Monte Carlo) approximations. Advantages of different approximations will be contrasted with their potential disadvantages. Advanced models in the lecture will include models for clustering, classification, recognition, denoising, compression, dimensionality reduction, deep learning, tracking etc. Typical application domains will be general pattern recognition, computational neuroscience and sensory data models including computer hearing and computer vision. The students will deepen their knowledge on mathematical models of data and sensory signals. Building up on the previously acquired Machine Learning models and methods, the students will be lead closer to current research topics and will learn about models that currently represent the state-of-the-art. Based on these models, the students will be exposed to the typical theoretical and practical challenges in the development of current Machine Learning algorithms. Typical such challenges are analytical and computational intractabilities, or local optima problems. Based on concrete examples, the students will learn how to address such problems. Applications to different data will teach skills to use the appropriate model for a desired task and the ability to interpret an algorithm’s result as well as ways for further improvements. Furthermore, the students will learn interpretations of biological and artificial intelligence based on state-of-the-art Machine Learning models. Contents: This course builds up on the basic models and methods introduced in introductory Machine Learning lectures. Advanced Machine Learning models will be introduced alongside methods for efficient parameter optimization. Analytical approximations for computationally intractable models will be defined and discussed as well as stochastic (Monte Carlo) approximations. Advantages of different approximations will be contrasted with their potential disadvantages. Advanced models in the lecture will include models for clustering, classification, recognition, denoising, compression, dimensionality reduction, deep learning, tracking etc. Typical application domains will be general pattern recognition, computational neuroscience and sensory data models including computer hearing and computer vision.	Exercises	2	Prof. Dr. Jörg Lücke Dmytro Velychko Sebastian Salwig Veranika Boukun	Master
5.04.633	Optical Systems Monday: 12:00 - 14:00, weekly (from 07/04/25) Description: Here is a list of the topics covered in the lecture: Fundamentals of optics and theoretical models of light Ray optics, geometrical optics, validity range and applications Behaviour and properties of EM waves and applications Optical imaging Imaging construction elements Microscopy Colours Set-up and function of selected optical systems for illumination and metrology Optical Fibers Here is a list of the topics covered in the lecture: Fundamentals of optics and theoretical models of light Ray optics, geometrical optics, validity range and applications Behaviour and properties of EM waves and applications Optical imaging Imaging construction elements Microscopy Colours Set-up and function of selected optical systems for illumination and metrology Optical Fibers	Lecture	-	Markus Schellenberg	Bachelor
5.04.634 Ü1	Exercises to Applied Mechanics Tuesday: 10:00 - 12:00, weekly (from 08/04/25) Description: Lecture from 8 am, s.t. to 10 am s.t. Achieving basic knowledge in applied mechanics, especially in statics and elasticity theory. Content: Static equilibrium (mainly 2D), frame works, friction (Coulomb), Hooke's law (3D including lateral contraction and thermal expansion), bending and torsion with planar cross sections, Mohr's theory Lecture from 8 am, s.t. to 10 am s.t. Achieving basic knowledge in applied mechanics, especially in statics and elasticity theory. Content: Static equilibrium (mainly 2D), frame works, friction (Coulomb), Hooke's law (3D including lateral contraction and thermal expansion), bending and torsion with planar cross sections, Mohr's theory	Exercises	2	Florian Schmidt	Bachelor
5.04.4012	Informationsverarbeitung und Kommunikation / Information Processing and Communication Thursday: 10:00 - 12:00, weekly (from 10/04/25) Description: Course topics: - Information processing in the brain, neurons, receptive fields - Simple classification models, the perceptron, linear discriminant analysis, regression approach to classification - Generative approaches, k-nearest neighbour classification, Bayes equation - Model selection and cross-validation - Logistic regression, binary cross-entropy loss function, gradient descent - Gradient descent optimization and regularization, multi-layer perceptron and error backpropagation - Convolutional networks, deep neural networks, receptive fields in deep netoworks - Reinforcement learning - Sequence modeling, speech recognition, markov chains, hidden markov model (HMMs) - Transformer deep networks, large language models (LLMs), from HMMs to LLMs - Information theory, measuring information, entropy - Information theory continued, entropy bound for coding, compression The course language is English or German, with English used by default and German used in case of only German native language speakers taking the course. Course topics: - Information processing in the brain, neurons, receptive fields - Simple classification models, the perceptron, linear discriminant analysis, regression approach to classification - Generative approaches, k-nearest neighbour classification, Bayes equation - Model selection and cross-validation - Logistic regression, binary cross-entropy loss function, gradient descent - Gradient descent optimization and regularization, multi-layer perceptron and error backpropagation - Convolutional networks, deep neural networks, receptive fields in deep netoworks - Reinforcement learning - Sequence modeling, speech recognition, markov chains, hidden markov model (HMMs) - Transformer deep networks, large language models (LLMs), from HMMs to LLMs - Information theory, measuring information, entropy - Information theory continued, entropy bound for coding, compression The course language is English or German, with English used by default and German used in case of only German native language speakers taking the course.	Lecture	-	PD Dr. Jörn Anemüller	Master
5.04.4883	Chaos and fractals in practice Thursday: 10:00 - 12:00, weekly (from 10/04/25) Description: The goal of this lecture is to get acquainted with prevalent concepts for dynamic systems. Particular emphasis lies on the interpretation of certain non-linear deterministic systems with respect to their fixed points (stationary or equilibrium solutions) as well as their sensitivity with respect to initial conditions (characterization via Lyapunov exponents). The evolution of fixed point leads to the catastrophe theory. The time evolution of non-stationary and non-linear system leads to chaos. Different routes to chaotic regimes will be discussed and put into the context of applications such as coupled generators in wind energy systems. The concept of fractal measures will be discussed at selected examples (Cantor set, Koch curves, etc.), which serves for the characterisation of chaotic attractors but also for fractal geometries like boarder lines, surfaces, turbulence or boundaries of basins of attraction. Ziel dieser Vorlesung ist es, gängige Konzepte für dynamische Systeme kennenzulernen. Ein besonderer Schwerpunkt liegt auf der Interpretation bestimmter nichtlinearer deterministischer Systeme hinsichtlich ihrer Fixpunkte (stationäre oder Gleichgewichtslösungen) sowie ihrer Empfindlichkeit gegenüber Anfangsbedingungen (Charakterisierung über Ljapunov-Exponenten). Die Entwicklung von Fixpunkten führt zur Katastrophentheorie. Die zeitliche Entwicklung von nicht-stationären und nicht-linearen Systemen führt zum Chaos. Verschiedene Wege zu chaotischen Regimen werden diskutiert und in den Kontext von Anwendungen gestellt (z. B. gekoppelte Generatoren in Windenergieanlagen). An ausgewählten Beispielen (Cantor-Menge, Koch-Kurven, etc.) wird das Konzept der fraktalen Maße diskutiert, das zur Charakterisierung von chaotischen Attraktoren, aber auch von fraktalen Geometrien wie Grenzlinien, Flächen, Turbulenzen oder Grenzen von Anziehungsgebieten dient. The goal of this lecture is to get acquainted with prevalent concepts for dynamic systems. Particular emphasis lies on the interpretation of certain non-linear deterministic systems with respect to their fixed points (stationary or equilibrium solutions) as well as their sensitivity with respect to initial conditions (characterization via Lyapunov exponents). The evolution of fixed point leads to the catastrophe theory. The time evolution of non-stationary and non-linear system leads to chaos. Different routes to chaotic regimes will be discussed and put into the context of applications such as coupled generators in wind energy systems. The concept of fractal measures will be discussed at selected examples (Cantor set, Koch curves, etc.), which serves for the characterisation of chaotic attractors but also for fractal geometries like boarder lines, surfaces, turbulence or boundaries of basins of attraction. Ziel dieser Vorlesung ist es, gängige Konzepte für dynamische Systeme kennenzulernen. Ein besonderer Schwerpunkt liegt auf der Interpretation bestimmter nichtlinearer deterministischer Systeme hinsichtlich ihrer Fixpunkte (stationäre oder Gleichgewichtslösungen) sowie ihrer Empfindlichkeit gegenüber Anfangsbedingungen (Charakterisierung über Ljapunov-Exponenten). Die Entwicklung von Fixpunkten führt zur Katastrophentheorie. Die zeitliche Entwicklung von nicht-stationären und nicht-linearen Systemen führt zum Chaos. Verschiedene Wege zu chaotischen Regimen werden diskutiert und in den Kontext von Anwendungen gestellt (z. B. gekoppelte Generatoren in Windenergieanlagen). An ausgewählten Beispielen (Cantor-Menge, Koch-Kurven, etc.) wird das Konzept der fraktalen Maße diskutiert, das zur Charakterisierung von chaotischen Attraktoren, aber auch von fraktalen Geometrien wie Grenzlinien, Flächen, Turbulenzen oder Grenzen von Anziehungsgebieten dient.	Lecture	-	PD Dr. Jan Friedrich Dr.-Ing. Janka Lengyel	Master
5.04.4256	Control of Wind Turbines and Wind Farms Monday: 14:00 - 16:00, weekly (from 07/04/25), Location: W33 0-003 Tuesday: 10:00 - 12:00, weekly (from 08/04/25), Location: W32 1-112 Description: The course covers the main techniques used in wind turbine and wind farm control. The course is structured in five sections: Section I: Introduction to control in wind energy • Introduction to the governing physics • Control objectives in wind energy • Overview of the control system Section II: Control oriented modelling • Modelling in time domain • Modelling in frequency domain • Time and frequency response Section III: Standard wind turbine control • Torque and pitch control • Tuning of a PI controller • Stability analysis • Control of coupled systems Section IV: Advanced wind turbine control • Advanced control design approaches • State space control • Estimation techniques Section V: Wind farm control • Wake control strategies • Active power control • Power maximization The course covers the main techniques used in wind turbine and wind farm control. The course is structured in five sections: Section I: Introduction to control in wind energy • Introduction to the governing physics • Control objectives in wind energy • Overview of the control system Section II: Control oriented modelling • Modelling in time domain • Modelling in frequency domain • Time and frequency response Section III: Standard wind turbine control • Torque and pitch control • Tuning of a PI controller • Stability analysis • Control of coupled systems Section IV: Advanced wind turbine control • Advanced control design approaches • State space control • Estimation techniques Section V: Wind farm control • Wake control strategies • Active power control • Power maximization	Lecture	-	Vlaho Petrovic	Master
5.04.614	Electrodynamics and Optics Monday: 16:00 - 18:00, weekly (from 07/04/25), Location: W03 1-161 Wednesday: 12:00 - 14:00, weekly (from 09/04/25), Location: W03 1-161 Dates on Monday, 14.07.2025 12:00 - 14:00, Location: W02 1-148 Description: Basics of Electrostatics Matter in an electric field The magnetic field Electrical circuits Motion of charges in electric and magnetic fields Magnetism in matter Induction Electromagnetic waves Light as electromagnetic wave Basics of Electrostatics Matter in an electric field The magnetic field Electrical circuits Motion of charges in electric and magnetic fields Magnetism in matter Induction Electromagnetic waves Light as electromagnetic wave	Lecture	4	Prof. Dr. Martin Silies	Bachelor
5.04.4074 Ü1	Exercises to Computational Fluid Dynamics II Thursday: 16:00 - 18:00, weekly (from 05/06/25) Description:	Exercises	1	Gabriele Centurelli Marcel Bock	Master
5.04.632	Basic Laboratory II Thursday: 09:00 - 13:00, weekly (from 17/04/25) Dates on Thursday, 10.04.2025 10:00 - 13:00 Description: Students will learn the basics of physical experimentation, the use of modern instrumentation, data collection, and analysis using appropriate hardware and software. They deepen lecture material through their own experiments. They acquire the skills for planning, implementation, evaluation, analysis, and reporting of physical experiments and presenting of results using multimedia tools. By working in groups, they gain competencies in the areas of teamwork and communication. Content: Introduction to software for scientific data analysis, analysis and assessment of measurement uncertainties, analysis and verification of measured data, fitting of functions to measured data, dealing with modern measurement techniques, carrying out experiments in the fields of mechanics, electricity, optics, nuclear radiation, electronics, signal acquisition, signal processing. Students will learn the basics of physical experimentation, the use of modern instrumentation, data collection, and analysis using appropriate hardware and software. They deepen lecture material through their own experiments. They acquire the skills for planning, implementation, evaluation, analysis, and reporting of physical experiments and presenting of results using multimedia tools. By working in groups, they gain competencies in the areas of teamwork and communication. Content: Introduction to software for scientific data analysis, analysis and assessment of measurement uncertainties, analysis and verification of measured data, fitting of functions to measured data, dealing with modern measurement techniques, carrying out experiments in the fields of mechanics, electricity, optics, nuclear radiation, electronics, signal acquisition, signal processing.	Practical training	-	Prof. Dr. Martin Silies Dr. rer. nat. Sandra Koch Markus Schellenberg Sabine Tiedeken Volker Braun Stefan Wild Lakshay Rajput Kersten Mumme	Bachelor
5.04.4235	Design of Wind Energy Systems Tuesday: 16:00 - 18:00, weekly (from 08/04/25), Location: W33 0-003 Thursday: 12:00 - 14:00, weekly (from 10/04/25), Location: W32 1-112 Description: The students attending the course will have the possibility to expand and sharpen of their knowledge about wind turbine design from the basic courses. The lectures include topics covering the whole spectrum from early design phase to the operation of a wind turbine. Students will learn in exercises how to calculate and evaluate design aspects of wind energy converters. At the end of the lecture, they should be able to: + estimate the site specific energy yield, + calculate the aerodynamics of wind turbines using the blade element momentum theory, + model wind fields to obtain specific design situations for wind turbines, + estimate the influence of dynamics of a wind turbine, especially in the context of fatigue loads, + transfer their knowledge to more complex topics such as simulation and measurements of dynamic loads, + assess economic aspects of wind turbines. Introduction to industrial wind turbine design, + rotor aerodynamics and Blade Element Momentum (BEM) theory, + dynamic loading and system dynamics, + wind field modelling for fatigue and extreme event loading, + design loads and design aspects of onshore wind turbines, + simulation and measurements of dynamic loads, + design of offshore wind turbines. The students attending the course will have the possibility to expand and sharpen of their knowledge about wind turbine design from the basic courses. The lectures include topics covering the whole spectrum from early design phase to the operation of a wind turbine. Students will learn in exercises how to calculate and evaluate design aspects of wind energy converters. At the end of the lecture, they should be able to: + estimate the site specific energy yield, + calculate the aerodynamics of wind turbines using the blade element momentum theory, + model wind fields to obtain specific design situations for wind turbines, + estimate the influence of dynamics of a wind turbine, especially in the context of fatigue loads, + transfer their knowledge to more complex topics such as simulation and measurements of dynamic loads, + assess economic aspects of wind turbines. Introduction to industrial wind turbine design, + rotor aerodynamics and Blade Element Momentum (BEM) theory, + dynamic loading and system dynamics, + wind field modelling for fatigue and extreme event loading, + design loads and design aspects of onshore wind turbines, + simulation and measurements of dynamic loads, + design of offshore wind turbines.	Lecture	2	Prof. Dr. Martin Kühn David Onnen	Master
5.04.4101 Versuch 03	Fortgeschrittenenpraktikum Physik (FPR-M) - Photoluminescence Measurements on Semiconductors for Photovoltaics: From the Micro- to the Macroscale Friday: 09:00 - 17:00, weekly (from 11/04/25) Description: Voraussetzung für die Teilnahme ist eine Anmeldung zu Beginn des dem Praktikum vorangehenden Semesters (Formular [hier]http://www.uni-oldenburg.de/physik/lehre/praktika/fpr/fpr-m/anmeldung/ ). Ort des Praktikums: Labore der Physik. Voraussetzung für die Teilnahme ist eine Anmeldung zu Beginn des dem Praktikum vorangehenden Semesters (Formular [hier]http://www.uni-oldenburg.de/physik/lehre/praktika/fpr/fpr-m/anmeldung/ ). Ort des Praktikums: Labore der Physik.	Practical training	-	Diksha Diksha	Master
5.04.4663	Physics with Intense Laser Pulses Wednesday: 14:00 - 18:00, weekly (from 09/04/25) Description: The students acquire broad experimental knowledge of the application of intense light from femtosecond and high power laser systems. They should be acquainted with the interaction of intense light with matter in general and with respect to important scientific and technical applications (in industry) such as laser material processing, high field physics (i.e. laser matter interaction at high intensity), laser generated particle and radiation sources of ultrashort duration and/or ultrashort wavelength etc. Content: Femtosecond and high power laser systems and its application, absorption of intense laser light, basics of laser matter interaction at high intensity, diagnostics, applications in micro machining, laser generated ultrashort radiation such as high-order laser harmonics and femtosecond K-alpha-sources and keV and MeV electron and ion sources and their application to micro fabrication micro and nano analysis.; atto physics, strong field physics The students acquire broad experimental knowledge of the application of intense light from femtosecond and high power laser systems. They should be acquainted with the interaction of intense light with matter in general and with respect to important scientific and technical applications (in industry) such as laser material processing, high field physics (i.e. laser matter interaction at high intensity), laser generated particle and radiation sources of ultrashort duration and/or ultrashort wavelength etc. Content: Femtosecond and high power laser systems and its application, absorption of intense laser light, basics of laser matter interaction at high intensity, diagnostics, applications in micro machining, laser generated ultrashort radiation such as high-order laser harmonics and femtosecond K-alpha-sources and keV and MeV electron and ion sources and their application to micro fabrication micro and nano analysis.; atto physics, strong field physics	Lecture	4	Ulrich Teubner	Master
5.04.6610	Modern Methods in Optical Microscopy Tuesday: 12:00 - 14:00, weekly (from 08/04/25) Description: Please subscribe as well in 5.04.4667 Vorlesung: Biophotonics to get necessary documents and information. The seminar "Modern Methods in Optical Microscopy" is part of "Advanced Metrology" and might be offered parallel with the seminar of "Biophotonics" (depending on the amount of participants). Examination: presentation in each part. - Demonstrate knowledge, fundamental understanding and critical awareness of current research fields in state-of-the-art optical microscopy. - Personal development through practice of communication, presentation, time management, teamwork, problem solving, project management, critical evaluation, numeracy, and IT skills. - Students are able to prepare a written scientific report on their own and present their results in an appropriate way to the group; in particular to understand, analyze, classify and work on an advanced microscopy topic, thoroughly study the recommended (and further) literature; find and critically check relevant literature make and incorporate their own thoughts, write down and present their results in a mathematically correct and comprehensible way, finish in time. Topics to be covered will include: microscopy, wave optics, optical imaging, spatial/temporal coherence, light generation/detection, e.g.: - Confocal microscopy - Superresolution microscopy - Single Molecule Imaging - Imaging of living tissue - Raman microscopy - Stochastic microscopy Please subscribe as well in 5.04.4667 Vorlesung: Biophotonics to get necessary documents and information. The seminar "Modern Methods in Optical Microscopy" is part of "Advanced Metrology" and might be offered parallel with the seminar of "Biophotonics" (depending on the amount of participants). Examination: presentation in each part. - Demonstrate knowledge, fundamental understanding and critical awareness of current research fields in state-of-the-art optical microscopy. - Personal development through practice of communication, presentation, time management, teamwork, problem solving, project management, critical evaluation, numeracy, and IT skills. - Students are able to prepare a written scientific report on their own and present their results in an appropriate way to the group; in particular to understand, analyze, classify and work on an advanced microscopy topic, thoroughly study the recommended (and further) literature; find and critically check relevant literature make and incorporate their own thoughts, write down and present their results in a mathematically correct and comprehensible way, finish in time. Topics to be covered will include: microscopy, wave optics, optical imaging, spatial/temporal coherence, light generation/detection, e.g.: - Confocal microscopy - Superresolution microscopy - Single Molecule Imaging - Imaging of living tissue - Raman microscopy - Stochastic microscopy	Seminar	-	Markus Schellenberg Dr. rer. nat. Sandra Koch	Master
5.04.471 Ü1	Exercises to Quantum Structure of Matter Tuesday: 16:00 - 18:00, weekly (from 15/04/25) Description:	Exercises	2	Prof. Dr. Christopher Gies Alexander Steinhoff	Bachelor
5.04.616 Ü3	Exercises Mathematical Methods for Physics and Engineering II Wednesday: 16:00 - 18:00, weekly (from 16/04/25) Description:	Exercises	2	Henri Gode Klaus Brümann Anselm Lohmann	Bachelor
5.04.4072	Computational Fluid Dynamics I Tuesday: 12:00 - 16:00, weekly (from 08/04/25) Description: Deeper understanding of the fundamental equations of fluid dynamics. Overview of numerical methods for the solution of the fundamental equations of fluid dynamics. Confrontation with complex problems in fluiddynamics. To become acquainted with different, widely used CFD models that are used to study complex problems in fluid dynamics. Ability to apply these CFD models to certain defined problems and to critically evaluate the results of numerical models. Content: CFD I: The Navier-Stokes equations, introduction to numerical methods, finite- differences, finite-volume methods, linear equation systems, turbulent flows, incompressible flows, compressible flows, efficiency and accuracy Deeper understanding of the fundamental equations of fluid dynamics. Overview of numerical methods for the solution of the fundamental equations of fluid dynamics. Confrontation with complex problems in fluiddynamics. To become acquainted with different, widely used CFD models that are used to study complex problems in fluid dynamics. Ability to apply these CFD models to certain defined problems and to critically evaluate the results of numerical models. Content: CFD I: The Navier-Stokes equations, introduction to numerical methods, finite- differences, finite-volume methods, linear equation systems, turbulent flows, incompressible flows, compressible flows, efficiency and accuracy	Lecture	-	PD Dr. Jan Friedrich	Master
5.04.4676	Fourier Methods Tuesday: 08:00 - 10:00, weekly (from 08/04/25) Description:	Lecture	-	Prof. Dr. Martin Silies	Master
5.04.4215 Ü2	Exercises to Machine Learning II – Advanced Learning and Inference Methods Tuesday: 14:00 - 16:00, weekly (from 15/04/25), Übung Description: The students will deepen their knowledge on mathematical models of data and sensory signals. Building up on the previously acquired Machine Learning models and methods, the students will be lead closer to current research topics and will learn about models that currently represent the state-of-the-art. Based on these models, the students will be exposed to the typical theoretical and practical challenges in the development of current Machine Learning algorithms. Typical such challenges are analytical and computational intractabilities, or local optima problems. Based on concrete examples, the students will learn how to address such problems. Applications to different data will teach skills to use the appropriate model for a desired task and the ability to interpret an algorithm’s result as well as ways for further improvements. Furthermore, the students will learn interpretations of biological and artificial intelligence based on state-of-the-art Machine Learning models. Contents: This course builds up on the basic models and methods introduced in introductory Machine Learning lectures. Advanced Machine Learning models will be introduced alongside methods for efficient parameter optimization. Analytical approximations for computationally intractable models will be defined and discussed as well as stochastic (Monte Carlo) approximations. Advantages of different approximations will be contrasted with their potential disadvantages. Advanced models in the lecture will include models for clustering, classification, recognition, denoising, compression, dimensionality reduction, deep learning, tracking etc. Typical application domains will be general pattern recognition, computational neuroscience and sensory data models including computer hearing and computer vision. The students will deepen their knowledge on mathematical models of data and sensory signals. Building up on the previously acquired Machine Learning models and methods, the students will be lead closer to current research topics and will learn about models that currently represent the state-of-the-art. Based on these models, the students will be exposed to the typical theoretical and practical challenges in the development of current Machine Learning algorithms. Typical such challenges are analytical and computational intractabilities, or local optima problems. Based on concrete examples, the students will learn how to address such problems. Applications to different data will teach skills to use the appropriate model for a desired task and the ability to interpret an algorithm’s result as well as ways for further improvements. Furthermore, the students will learn interpretations of biological and artificial intelligence based on state-of-the-art Machine Learning models. Contents: This course builds up on the basic models and methods introduced in introductory Machine Learning lectures. Advanced Machine Learning models will be introduced alongside methods for efficient parameter optimization. Analytical approximations for computationally intractable models will be defined and discussed as well as stochastic (Monte Carlo) approximations. Advantages of different approximations will be contrasted with their potential disadvantages. Advanced models in the lecture will include models for clustering, classification, recognition, denoising, compression, dimensionality reduction, deep learning, tracking etc. Typical application domains will be general pattern recognition, computational neuroscience and sensory data models including computer hearing and computer vision.	Exercises	2	Prof. Dr. Jörg Lücke Dmytro Velychko Till Kahlke Veranika Boukun	Master
5.04.616 Ü1	Exercises Mathematical Methods for Physics and Engineering II Wednesday: 10:00 - 12:00, weekly (from 16/04/25) Description:	Exercises	2	Henri Gode Klaus Brümann Prof. Dr. Simon Doclo Anselm Lohmann	Bachelor
5.04.3300 a	Radiooncology for Medical Physicists I The course times are not decided yet. Description: In this lecture the basic background of Radiooncology for Medical Physics will be covered. The lecture will be held at the Pius-Hospital Oldenburg in several blocks. Detailed schedule will be announced in May, In this lecture the basic background of Radiooncology for Medical Physics will be covered. The lecture will be held at the Pius-Hospital Oldenburg in several blocks. Detailed schedule will be announced in May,	Lecture	-	Prof. Dr. Björn Poppe Dr. Ping Jiang	Master
5.04.4212	Current Topics in Machine Learning and its Applications Wednesday: 14:00 - 16:00, weekly (from 09/04/25) Description: The students will learn the current research directions and challenges of the Machine Learning research field. By presenting examples from Machine Learning algorithms applied to sensory data tasks including task in Computer Hearing and Computer Vision the students will be taught the current strengths and weaknesses of different approaches. The presentations of current research papers by the participants will make use of computers and projectors. Programming examples and animations will be used to support the interactive component of the presentations. In scientific discussions of the presented and related work, the students will deepen their knowledge about current limitations of Machine Learning approaches both on the theoretical side and on the side of their technical and practical realizations. Presentations of interdisciplinary research will enable the students to carry over their Machine Learning knowledge to address questions in other scientific domains. Contents: Building up on advanced Machine Learning knowledge, this seminar discusses recent scientific contributions and developments in Machine Learning as well as recent papers on applications of Machine Learning algorithms. Typical application domains include general pattern recognition, computer hearing, computer vision and computational neuroscience. Typical tasks include auditory and visual signal enhancements, source separation, auditory and visual object learning and recognition, auditory scene analysis, data compression and inpainting. Applications to computational neuroscience will discuss recent papers on the probabilistic interpretation of neural learning and biological intelligence. The students will learn the current research directions and challenges of the Machine Learning research field. By presenting examples from Machine Learning algorithms applied to sensory data tasks including task in Computer Hearing and Computer Vision the students will be taught the current strengths and weaknesses of different approaches. The presentations of current research papers by the participants will make use of computers and projectors. Programming examples and animations will be used to support the interactive component of the presentations. In scientific discussions of the presented and related work, the students will deepen their knowledge about current limitations of Machine Learning approaches both on the theoretical side and on the side of their technical and practical realizations. Presentations of interdisciplinary research will enable the students to carry over their Machine Learning knowledge to address questions in other scientific domains. Contents: Building up on advanced Machine Learning knowledge, this seminar discusses recent scientific contributions and developments in Machine Learning as well as recent papers on applications of Machine Learning algorithms. Typical application domains include general pattern recognition, computer hearing, computer vision and computational neuroscience. Typical tasks include auditory and visual signal enhancements, source separation, auditory and visual object learning and recognition, auditory scene analysis, data compression and inpainting. Applications to computational neuroscience will discuss recent papers on the probabilistic interpretation of neural learning and biological intelligence.	Seminar	2	Prof. Dr. Jörg Lücke	Master
5.04.4587	Advanced CFD and wind turbine aerodynamics Wednesday: 14:00 - 16:00, weekly (from 09/04/25) Description: The aim is that the students learn how to approach all kinds of real numerical problems in CFD and solve them. Everyone is supposed to be set up to date on the current problems and challenges of CFD in aerodynamics and their solutions. Content: CFD wake modeling, grid generators and computational stability, developing fluid structure interaction solvers, detached eddy simulations (DES), turbulent inflow field generation The aim is that the students learn how to approach all kinds of real numerical problems in CFD and solve them. Everyone is supposed to be set up to date on the current problems and challenges of CFD in aerodynamics and their solutions. Content: CFD wake modeling, grid generators and computational stability, developing fluid structure interaction solvers, detached eddy simulations (DES), turbulent inflow field generation	Seminar	2	Dr. Bernhard Stoevesandt	Master
5.04.614 Ü2	Exercises to Electrodynamics and Optics Tuesday: 12:00 - 14:00, weekly (from 15/04/25) Description: Basics of Electrostatics Matter in an electric field The magnetic field Electrical circuits Motion of charges in electric and magnetic fields Magnetism in matter Induction Electromagnetic waves Light as electromagnetic wave Basics of Electrostatics Matter in an electric field The magnetic field Electrical circuits Motion of charges in electric and magnetic fields Magnetism in matter Induction Electromagnetic waves Light as electromagnetic wave	Exercises	2	Prof. Dr. Martin Silies TutorInnen, der Physik	Bachelor
5.06.M207 Ü	Exercise to Photovoltaic Systems Wednesday: 08:00 - 10:00, weekly (from 16/04/25) Description:	Exercises	2	Dr. Martin Knipper	Master
5.04.654	Hyperloop Systems Monday: 18:00 - 19:00, weekly (from 07/04/25), weekly Seminar Tuesday: 16:00 - 18:00, weekly (from 08/04/25) Description: Dies ist die Bachelor-Veranstaltung. Das Modul "Hyperloop Systems" wird für Studenten ab dem 3. Semester empfohlen, obwohl es auch einige Projekte für frühere Semester gibt. Das erste Treffen findet nach Absprache per Mail statt. Die Kommunikation erfolgt virtuell. Ab dem 12.04.2021 findet das Vacuum Transport Research Seminar statt (https://www.vacuumtransport.org). Für den Masterstudiengang suchen Sie bitte nach "Advanced Hyperloop Studies". Dies ist die Bachelor-Veranstaltung. Das Modul "Hyperloop Systems" wird für Studenten ab dem 3. Semester empfohlen, obwohl es auch einige Projekte für frühere Semester gibt. Das erste Treffen findet nach Absprache per Mail statt. Die Kommunikation erfolgt virtuell. Ab dem 12.04.2021 findet das Vacuum Transport Research Seminar statt (https://www.vacuumtransport.org). Für den Masterstudiengang suchen Sie bitte nach "Advanced Hyperloop Studies".	Practical training	4	Prof. Dr. Walter Neu, Dipl.-Phys. Thomas Schüning Lukas Eschment	Bachelor
5.04.643	Micro Technology Monday: 12:00 - 16:00, fortnightly (from 07/04/25) Description: Aim/learning outcomes: Today micro-electro-mechanical systems (MEMS) and micro opto-electro-mechanical systems (MOEMS) and components are important in daily life and industry. The students get introduced to the modern field of micro technology. In addition this is also of relevance for those who are interested in sensors, in manufacturing of micro electronic components or in special applications of optics and lasers, e.g. laser processing for the micro and nano world. The students get also prepared to make use of tha tknowledge industry. Some practical work is demontrated in the laboratory. Content: Basic technology & methods, processes, materials, thin layers, deposition (e.g., evaporation, sputtering, CVD, diffusion, doping etc.), etching; particular emphasis is put on optical methods such as lithography, deep lithography, LIGA, laser micro machining, femtosecond laser applications. Aim/learning outcomes: Today micro-electro-mechanical systems (MEMS) and micro opto-electro-mechanical systems (MOEMS) and components are important in daily life and industry. The students get introduced to the modern field of micro technology. In addition this is also of relevance for those who are interested in sensors, in manufacturing of micro electronic components or in special applications of optics and lasers, e.g. laser processing for the micro and nano world. The students get also prepared to make use of tha tknowledge industry. Some practical work is demontrated in the laboratory. Content: Basic technology & methods, processes, materials, thin layers, deposition (e.g., evaporation, sputtering, CVD, diffusion, doping etc.), etching; particular emphasis is put on optical methods such as lithography, deep lithography, LIGA, laser micro machining, femtosecond laser applications.	Lecture	-	Ulrich Teubner	Bachelor
5.04.648	Wind Energy Utilisation Monday: 16:00 - 18:00, weekly (from 07/04/25), Location: W33 0-003 Thursday: 16:00 - 18:00, weekly (from 10/04/25), Location: W33 0-003, W32 1-112 Description: This lecture with exercises is intended as introduction into physics and engineering of wind energy utilisation. Nevertheless also social, historical and political aspects are regarded. The lecture gives a deeper understanding of physical effects, methods, calculations and parameters into the field of wind energy utilisation, wind physics and wind energy science. Experiments and exhibits are used to deliver deeper insights into the subjects of the lectures. The appointments on Thurday are dedicated to a tutorial part. Here, an an introduction into the common and professional software WindPro ® is given and project-oriented work on a design of a wind farm is perfomed. Also, calculation exercises, which have to be solved as homework, are explained. Students who have attended »Wind Energy Utilisation« in the Bachelor phase should be able to directly enrol for advanced wind energy lectures in the Master phase (without attending 5.04.4061 – Wind Energy). Content: • The wind: generation, occurence, measurement, profiles etc.; • Energy and power in the wind; • Drag driven converters; • Principle of lift driven converters; • Dimensionless parameters and characteristic diagrams of wind turbines; • Optimum twist and horizontal plan of the rotor blade; • Rotor power losses; • Power control; • Generator concepts and grid interaction; • Loads; • Mechanical design and components of a wind turbine; • Calculation of energy yield; • Economics; • Wind farms, wakes and wind farm efficiency; • Environmental effects; • Unconventional converters; • Prepared discussion about social and political aspects; • Use of wind farm calculation software WindPro This lecture with exercises is intended as introduction into physics and engineering of wind energy utilisation. Nevertheless also social, historical and political aspects are regarded. The lecture gives a deeper understanding of physical effects, methods, calculations and parameters into the field of wind energy utilisation, wind physics and wind energy science. Experiments and exhibits are used to deliver deeper insights into the subjects of the lectures. The appointments on Thurday are dedicated to a tutorial part. Here, an an introduction into the common and professional software WindPro ® is given and project-oriented work on a design of a wind farm is perfomed. Also, calculation exercises, which have to be solved as homework, are explained. Students who have attended »Wind Energy Utilisation« in the Bachelor phase should be able to directly enrol for advanced wind energy lectures in the Master phase (without attending 5.04.4061 – Wind Energy). Content: • The wind: generation, occurence, measurement, profiles etc.; • Energy and power in the wind; • Drag driven converters; • Principle of lift driven converters; • Dimensionless parameters and characteristic diagrams of wind turbines; • Optimum twist and horizontal plan of the rotor blade; • Rotor power losses; • Power control; • Generator concepts and grid interaction; • Loads; • Mechanical design and components of a wind turbine; • Calculation of energy yield; • Economics; • Wind farms, wakes and wind farm efficiency; • Environmental effects; • Unconventional converters; • Prepared discussion about social and political aspects; • Use of wind farm calculation software WindPro	Lecture	-	Prof. Dr. Martin Kühn Jan Kai Bohrer	Bachelor
5.04.647	Design Fundamentals Thursday: 14:00 - 18:00, weekly (from 17/04/25) Description: The course is 2 hours per week taken together in 7 appointments from the second week on. You have to book the desired date of your course via StudIP by checking into "Participants", ticking in the left hand menu "Groups" and proceed with the date of your choice. Get yourself registered by clicking the second button from the right "Become a memeber of group..." (cf. Documents). E.g. a lab project in the morning means group A (recommanded if you don't participate at a language corse) or group C. If you are taking a language course you definetly have to choose group C Aim/ learning outcome: Achieving basic knowledge in reading, understanding and production of technical drawings, getting and overview about the features of CAD-Software, knowing about the basic principles of designing and dimensioning of machine elements. Content: Rules and Standards for Technical Drawings, Design Phases: • Functional requirements, performance specifications • Design methodology • Decision processes • Detailing • Manufacturing Drawings • Grouping of parts Basic Machine Elements: • Frames • Joints • Bearings • Sealing The course is 2 hours per week taken together in 7 appointments from the second week on. You have to book the desired date of your course via StudIP by checking into "Participants", ticking in the left hand menu "Groups" and proceed with the date of your choice. Get yourself registered by clicking the second button from the right "Become a memeber of group..." (cf. Documents). E.g. a lab project in the morning means group A (recommanded if you don't participate at a language corse) or group C. If you are taking a language course you definetly have to choose group C Aim/ learning outcome: Achieving basic knowledge in reading, understanding and production of technical drawings, getting and overview about the features of CAD-Software, knowing about the basic principles of designing and dimensioning of machine elements. Content: Rules and Standards for Technical Drawings, Design Phases: • Functional requirements, performance specifications • Design methodology • Decision processes • Detailing • Manufacturing Drawings • Grouping of parts Basic Machine Elements: • Frames • Joints • Bearings • Sealing	Lecture	-	Olaf Helms	Bachelor
5.06.M201	Sustainability of Renewable Energy Thursday: 08:00 - 12:00, weekly (from 10/04/25) Description: The module “Sustainability of RE Systems” provides the theoretical background for understanding main concepts and interdisciplinary scientific methods from the context as well as their role in the sustainability debate. Main topics and methods which are focus of the course are: - Strategies and dimensions in sustainability research and discussion: efficiency, consistency and sufficiency, as well as related concepts (e.g. rebound) - Growth/De-growth and decoupling of growth and emission - Life-cycle analysis - Thermodynamic methods: exergy, EROI and related approaches - Social indicators and their relation to energy use - Economic indicators and related paradigms in the context of energy consumption - Resilience and its operationalisation for energy systems - Methods for developing and assess socio-technical scenarios After successful completion of the module students should be able to: - analyse, and critically compare and evaluate selected sustainability concepts and strategies addressing renewable energy systems - critically appraise and analyse the principles and implications of selected scientific methods and theories for a sustainable energy supply - critically evaluate the suitability and meaningfulness of different sustainability indicators, theories, methods and practices regarding their role and impact for developed countries, on the one hand, and developing countries, on the other - perform an integral assessment, involving several relevant aspects related to the sustainability of a particular real-life renewable energy project as well as identify the main barriers, potentials and driving factors for improving it - perform a literature review on selected sustainability approaches to a professional standard and extract the main related conclusions, and arguing critically on them - present data and information both verbally and in the written form, including quotation to a professional standard The module “Sustainability of RE Systems” provides the theoretical background for understanding main concepts and interdisciplinary scientific methods from the context as well as their role in the sustainability debate. Main topics and methods which are focus of the course are: - Strategies and dimensions in sustainability research and discussion: efficiency, consistency and sufficiency, as well as related concepts (e.g. rebound) - Growth/De-growth and decoupling of growth and emission - Life-cycle analysis - Thermodynamic methods: exergy, EROI and related approaches - Social indicators and their relation to energy use - Economic indicators and related paradigms in the context of energy consumption - Resilience and its operationalisation for energy systems - Methods for developing and assess socio-technical scenarios After successful completion of the module students should be able to: - analyse, and critically compare and evaluate selected sustainability concepts and strategies addressing renewable energy systems - critically appraise and analyse the principles and implications of selected scientific methods and theories for a sustainable energy supply - critically evaluate the suitability and meaningfulness of different sustainability indicators, theories, methods and practices regarding their role and impact for developed countries, on the one hand, and developing countries, on the other - perform an integral assessment, involving several relevant aspects related to the sustainability of a particular real-life renewable energy project as well as identify the main barriers, potentials and driving factors for improving it - perform a literature review on selected sustainability approaches to a professional standard and extract the main related conclusions, and arguing critically on them - present data and information both verbally and in the written form, including quotation to a professional standard	Seminar	4	Dr.-Ing. Herena Torio	Master
5.04.4230	Oberseminar „Journal Club“ Speech Technology and Hearing Aids Thursday: 12:00 - 14:00, weekly (from 10/04/25) Description: The participants are actually making a distance from their daily own research thread and implementation towards a wider perspective. They pursue other topics of colleagues and related scientists, which seem to be outside the personal scope or interest, and will yet contribute useful commentary and suggestions. To this, we shall seek literature and pursue intrinsically-motivated study in neighboring and overarching fields of research and education. The results of the study will be grouped systematically and presented in the seminar accordingly. The participants cooperatively work on consensus regarding the scientific merit of publications in terms fundamental relevance or potential utility for own scientific generalization. The themes of the seminar comprise the whole bandwidth of scientific literature on signal processing, machine learning and acoustics with applications in speech technology and hearing aids, for instance, single- and multichannel noise reduction, acoustic sensor networks, digital speech communication, binaural transmission and perception. The graduate participants prove the enhanced perspective obtained by the seminar by enhanced motivation and practice for proposal writing. The undergraduate participants can deliver an oral examination or contribute a formal presentation on a given topic. The participants are actually making a distance from their daily own research thread and implementation towards a wider perspective. They pursue other topics of colleagues and related scientists, which seem to be outside the personal scope or interest, and will yet contribute useful commentary and suggestions. To this, we shall seek literature and pursue intrinsically-motivated study in neighboring and overarching fields of research and education. The results of the study will be grouped systematically and presented in the seminar accordingly. The participants cooperatively work on consensus regarding the scientific merit of publications in terms fundamental relevance or potential utility for own scientific generalization. The themes of the seminar comprise the whole bandwidth of scientific literature on signal processing, machine learning and acoustics with applications in speech technology and hearing aids, for instance, single- and multichannel noise reduction, acoustic sensor networks, digital speech communication, binaural transmission and perception. The graduate participants prove the enhanced perspective obtained by the seminar by enhanced motivation and practice for proposal writing. The undergraduate participants can deliver an oral examination or contribute a formal presentation on a given topic.	Seminar	-	Prof. Dr. Gerald Enzner	Master
5.04.233a Ü	Exercise to Physical Metrology Wednesday: 16:00 - 18:00, weekly (from 09/04/25) Description:	Exercises	2	Prof. Dr. Philipp Huke Mohamed Shehata	Bachelor
5.06.M203	Simulation of Renewable Energy Systems Friday: 10:00 - 12:00, weekly (from 11/04/25) Description: Introduction to Software for the Simulation of Renewable Energy Systems Introduction to Software for the Simulation of Renewable Energy Systems	Lecture	2	Dr. Martin Knipper Dr.-Ing. Herena Torio	Master
5.06.M211	Solar Energy Meteorology Monday: 16:00 - 18:00, weekly (from 07/04/25) Tuesday: 14:00 - 16:00, weekly (from 08/04/25) Description: Lecturer from German Aerospace Center (DLR) - Institute of Networked Energy Systems - Department Energy Analysis - Team Energy Meteorology: The lecture addresses applications of solar energy meteorology. As a basis, most important physical laws for solar energy meteorology as well as models for solar resource assessment and forecasting are introduced. A special emphasis will be on evaluation concepts and applications. • requirements for solar resource data from different applications • models and measurement devices for solar resource assessment and forecasting • benefits and drawbacks of different models • methods to assess the quality of solar resource data The lectures are combined with practical excercises in data handling, analysis and quality control of meteorological and solar radiation data. The exercises are based on Python programming language. Therefore basic skills of the programming language are required. The course examination is done in project work and a short presentation of results in the last lecture of the course. The project work is strongly linked to daily applications in solar energy meteorology and based on research data from DLR institute. Lecturer from German Aerospace Center (DLR) - Institute of Networked Energy Systems - Department Energy Analysis - Team Energy Meteorology: The lecture addresses applications of solar energy meteorology. As a basis, most important physical laws for solar energy meteorology as well as models for solar resource assessment and forecasting are introduced. A special emphasis will be on evaluation concepts and applications. • requirements for solar resource data from different applications • models and measurement devices for solar resource assessment and forecasting • benefits and drawbacks of different models • methods to assess the quality of solar resource data The lectures are combined with practical excercises in data handling, analysis and quality control of meteorological and solar radiation data. The exercises are based on Python programming language. Therefore basic skills of the programming language are required. The course examination is done in project work and a short presentation of results in the last lecture of the course. The project work is strongly linked to daily applications in solar energy meteorology and based on research data from DLR institute.	Lecture	2	Dr. Jorge Enrique Lezaca Galeano Dr. Thomas Schmidt	Master
5.04.4771	Optoelectronics Tuesday: 10:00 - 12:00, weekly (from 08/04/25) Description:	Lecture	-	Prof. Dr. Martin Silies	Master
5.04.4586 Ü2	Exercises to Digital Signal Processing Wednesday: 12:00 - 14:00, weekly (from 09/04/25) Description: Engineering Physics: Alternative für Signal- und Systemtheorie Engineering Physics: Alternative für Signal- und Systemtheorie	Exercises	2	Wiebke Middelberg, M. Sc. Klaus Brümann Jiatong Li	Master
5.04.4664	Laser Design and Beam Guiding Monday: 12:00 - 16:00, weekly (from 07/04/25) Description: Students acquire advanced knowledge for the design of lasers and laser systems, they also understand the propagation of laser beams and their forming. Content: Design of different laser types; physics of active and passive laser components; beams and resonators; lab work Students acquire advanced knowledge for the design of lasers and laser systems, they also understand the propagation of laser beams and their forming. Content: Design of different laser types; physics of active and passive laser components; beams and resonators; lab work	Lecture	-	Prof. Dr. Philipp Huke	Master
5.04.4242	Selected Topics on Medical Radiation Physics Friday: 12:00 - 14:00, weekly (from 11/04/25) Description: Neben den aktuellen Themen der Strahlenphysik (wie IMRT, NMR, PET, SPECT usw.) erlernen die Studierenden den Umgang mit meist englischsprachigen Fachzeitschriften aus dem Bereich. Darüber hinaus werden Präsentationstechniken durch eigene Vorträge erlernt. Parallel zu der Veranstaltung wird die Verwendung eines Monte-Carlo Strahlungstransport-Codes (EGS) erlernt und somit die Fähigkeit vertieft, komplexe physikalische Modelle in eine Software umzusetzen. Neben den aktuellen Themen der Strahlenphysik (wie IMRT, NMR, PET, SPECT usw.) erlernen die Studierenden den Umgang mit meist englischsprachigen Fachzeitschriften aus dem Bereich. Darüber hinaus werden Präsentationstechniken durch eigene Vorträge erlernt. Parallel zu der Veranstaltung wird die Verwendung eines Monte-Carlo Strahlungstransport-Codes (EGS) erlernt und somit die Fähigkeit vertieft, komplexe physikalische Modelle in eine Software umzusetzen.	Seminar	-	Prof. Dr. Björn Poppe Dr. Andreas Schönfeld Dr. Daniela Eulenstein	Master
5.04.4215	Machine Learning II – Advanced Learning and Inference Methods Thursday: 10:00 - 12:00, weekly (from 10/04/25) Description: The students will deepen their knowledge on mathematical models of data and sensory signals. Building up on the previously acquired Machine Learning models and methods, the students will be lead closer to current research topics and will learn about models that currently represent the state-of-the-art. Based on these models, the students will be exposed to the typical theoretical and practical challenges in the development of current Machine Learning algorithms. Typical such challenges are analytical and computational intractabilities, or local optima problems. Based on concrete examples, the students will learn how to address such problems. Applications to different data will teach skills to use the appropriate model for a desired task and the ability to interpret an algorithm’s result as well as ways for further improvements. Furthermore, the students will learn interpretations of biological and artificial intelligence based on state-of-the-art Machine Learning models. Contents: This course builds up on the basic models and methods introduced in introductory Machine Learning lectures. Advanced Machine Learning models will be introduced alongside methods for efficient parameter optimization. Analytical approximations for computationally intractable models will be defined and discussed as well as stochastic (Monte Carlo) approximations. Advantages of different approximations will be contrasted with their potential disadvantages. Advanced models in the lecture will include models for clustering, classification, recognition, denoising, compression, dimensionality reduction, deep learning, tracking etc. Typical application domains will be general pattern recognition, computational neuroscience and sensory data models including computer hearing and computer vision. The students will deepen their knowledge on mathematical models of data and sensory signals. Building up on the previously acquired Machine Learning models and methods, the students will be lead closer to current research topics and will learn about models that currently represent the state-of-the-art. Based on these models, the students will be exposed to the typical theoretical and practical challenges in the development of current Machine Learning algorithms. Typical such challenges are analytical and computational intractabilities, or local optima problems. Based on concrete examples, the students will learn how to address such problems. Applications to different data will teach skills to use the appropriate model for a desired task and the ability to interpret an algorithm’s result as well as ways for further improvements. Furthermore, the students will learn interpretations of biological and artificial intelligence based on state-of-the-art Machine Learning models. Contents: This course builds up on the basic models and methods introduced in introductory Machine Learning lectures. Advanced Machine Learning models will be introduced alongside methods for efficient parameter optimization. Analytical approximations for computationally intractable models will be defined and discussed as well as stochastic (Monte Carlo) approximations. Advantages of different approximations will be contrasted with their potential disadvantages. Advanced models in the lecture will include models for clustering, classification, recognition, denoising, compression, dimensionality reduction, deep learning, tracking etc. Typical application domains will be general pattern recognition, computational neuroscience and sensory data models including computer hearing and computer vision.	Lecture	2	Prof. Dr. Jörg Lücke	Master
5.04.4586 Ü1	Exercises to Digital Signal Processing Wednesday: 12:00 - 14:00, weekly (from 09/04/25) Description: Engineering Physics: Alternative für Signal- und Systemtheorie Engineering Physics: Alternative für Signal- und Systemtheorie	Exercises	2	Wiebke Middelberg, M. Sc. Klaus Brümann Jiatong Li	Master
5.04.201a	Thermodynamics and Statistics Tuesday: 16:00 - 18:00, weekly (from 08/04/25), Location: W03 1-161 Thursday: 10:00 - 12:00, weekly (from 10/04/25), Location: W02 1-143 Description: Die Studierenden erlernen die grundlegenden Prinzipien der phänomenologischen Thermodynamik einschließlich der Anwendungen auf dem Gebiet der Maschinen, sowie der mikroskopischen Thermodynamik und Statistik. Die Grundprinzipien werden auch anhand von Schlüsselexperimenten vermittelt. Die Veranstaltung bereitet auch den Besuch des Moduls Theoretische Physik III (Thermodynamik/Statistik) vor. Inhalte: Thermodynamische Zustandsgrößen, Hauptsätze der Thermodynamik, ideale und reale Gase, Potentialfunktionen aus der Legendre-Transformation, irreversible Zustandsänderungen, Kreisprozesse, Aggregatzustände, offene Systeme und Phasenübergänge, Wärmeleitung und Diffusion, statistische Ansätze für Gleichverteilung im Volumen, Entropieänderungen, kinetische Gastheorie, Boltzmann-, Fermi-Dirac- und Bose-Einstein-Statistik, Maxwell Verteilung, Planckscher Strahler, Zustandsänderungen in Quantensystemen. Die Studierenden erlernen die grundlegenden Prinzipien der phänomenologischen Thermodynamik einschließlich der Anwendungen auf dem Gebiet der Maschinen, sowie der mikroskopischen Thermodynamik und Statistik. Die Grundprinzipien werden auch anhand von Schlüsselexperimenten vermittelt. Die Veranstaltung bereitet auch den Besuch des Moduls Theoretische Physik III (Thermodynamik/Statistik) vor. Inhalte: Thermodynamische Zustandsgrößen, Hauptsätze der Thermodynamik, ideale und reale Gase, Potentialfunktionen aus der Legendre-Transformation, irreversible Zustandsänderungen, Kreisprozesse, Aggregatzustände, offene Systeme und Phasenübergänge, Wärmeleitung und Diffusion, statistische Ansätze für Gleichverteilung im Volumen, Entropieänderungen, kinetische Gastheorie, Boltzmann-, Fermi-Dirac- und Bose-Einstein-Statistik, Maxwell Verteilung, Planckscher Strahler, Zustandsänderungen in Quantensystemen.	Lecture	4	Prof. Dr. Niklas Nilius	Bachelor
5.04.4243 b	Python Programming in Energy Science Wednesday: 10:00 - 12:00, weekly (from 09/04/25) Description: We teach you from scratch how the Python programming language works and how you can use it as a scientist. Basic knowledge about general programming concepts are expected (variables; data types such as integers, floats, strings; functions with and w/o return values; arrays; for and while loops). The course will be in English. We teach you from scratch how the Python programming language works and how you can use it as a scientist. Basic knowledge about general programming concepts are expected (variables; data types such as integers, floats, strings; functions with and w/o return values; arrays; for and while loops). The course will be in English.	Lecture	-	Balthazar Arnoldus Maria Sengers Dr. Hassan Kassem Lukas Vollmer Dr. Jonas Schmidt Sandra Schwegmann	Master
5.04.634	Applied Mechanics Tuesday: 08:00 - 10:00, weekly (from 08/04/25), Vorlesung Description: Lecture from 8 am, s.t. to 10 am s.t. Achieving basic knowledge in applied mechanics, especially in statics and elasticity theory. Content: Static equilibrium (mainly 2D), frame works, friction (Coulomb), Hooke's law (3D including lateral contraction and thermal expansion), bending and torsion with planar cross sections, Mohr's theory Lecture from 8 am, s.t. to 10 am s.t. Achieving basic knowledge in applied mechanics, especially in statics and elasticity theory. Content: Static equilibrium (mainly 2D), frame works, friction (Coulomb), Hooke's law (3D including lateral contraction and thermal expansion), bending and torsion with planar cross sections, Mohr's theory	Lecture	2	Florian Schmidt Sven Carsten Lange	Bachelor
5.04.4528	Computational Biophysics Wednesday: 12:00 - 14:00, weekly (from 09/04/25) Description: The course will explore physical models and computational approaches used for the simulations of macromolecular systems. A mixture of lectures and hands-on tutorials will serve to provide a roadmap for setting investigations of macro-molecular structure and dynamics at the atomic level of detail. The course is based on practical exercises with the biophysical programs NAMD and VMD. In particular, the case studies of various biological systems will be discussed. Relevant physical concepts, mathematical techniques, and computational methods will be introduced, including force fields and algorithms used in molecular modeling and molecular dynamics on parallel computers The course will explore physical models and computational approaches used for the simulations of macromolecular systems. A mixture of lectures and hands-on tutorials will serve to provide a roadmap for setting investigations of macro-molecular structure and dynamics at the atomic level of detail. The course is based on practical exercises with the biophysical programs NAMD and VMD. In particular, the case studies of various biological systems will be discussed. Relevant physical concepts, mathematical techniques, and computational methods will be introduced, including force fields and algorithms used in molecular modeling and molecular dynamics on parallel computers	Lecture	-	Prof. Dr. Ilia Solov'yov	Master
5.04.232a	Signal Processing Wednesday: 10:00 - 12:00, weekly (from 09/04/25) Description:	Lecture	2	Prof. Dr. Philipp Huke	Bachelor
5.04.642	Electronics Monday: 08:00 - 10:00, weekly (from 07/04/25) Monday: 10:00 - 12:00, weekly (from 07/04/25) Thursday: 14:00 - 18:00, weekly (from 05/06/25) Description: The students acquire basic competences to set-up and analyze digital and analog electronic circuits; furthermore basic knowledge for measurement methods as well as for handling measurement systems are imparted. content: logic functions and gates, digital circuit analysis and synthesis, flip-flops, digital counters and memories, A/D- and D/A converters, programmable logic devices , impedances, inductances and capacitances, complex alternating electric quantities, RCL-filter circuits, semiconductor circuits, rectifier circuits, operational amplifier circuits The students acquire basic competences to set-up and analyze digital and analog electronic circuits; furthermore basic knowledge for measurement methods as well as for handling measurement systems are imparted. content: logic functions and gates, digital circuit analysis and synthesis, flip-flops, digital counters and memories, A/D- and D/A converters, programmable logic devices , impedances, inductances and capacitances, complex alternating electric quantities, RCL-filter circuits, semiconductor circuits, rectifier circuits, operational amplifier circuits	Lecture	-	Prof. Dr. Andreas Haja Prof. Dr. Martin Silies	Bachelor
5.04.692b	Laser Safety Instruction Dates on Wednesday, 09.04.2025 10:00 - 12:00 Description: The Laser-Safety Instructions are mandatory to everyone who is working in the optical laboratories in Emden. A refreshment is needed every year. Usually, the instructions are offered twice in a semester, usually at the beginning. The instructions are not specific for a certain course, but we try to implement it there. Make sure, that you join one of the courses. You can even join it a semester ahead if you don't know when you are starting a project. In-between instructions are not offered. The introductions are required: Summer semester 5.04.632 Basic Laboratory II (BA) 5.04.4671 - Tools in Advanced Photonics (MA) Winter Semester 5.04.6570 Fundamentals of Optics (MA) 5.04.637 Laboratory Project I (BA) 5.04.646a Laboratory Project II - Laser & Optics (BA) General Internships Bachelor's Theses in the field of Laser & Optics Master's Theses in the field of Laser & Optics The Laser-Safety Instructions are mandatory to everyone who is working in the optical laboratories in Emden. A refreshment is needed every year. Usually, the instructions are offered twice in a semester, usually at the beginning. The instructions are not specific for a certain course, but we try to implement it there. Make sure, that you join one of the courses. You can even join it a semester ahead if you don't know when you are starting a project. In-between instructions are not offered. The introductions are required: Summer semester 5.04.632 Basic Laboratory II (BA) 5.04.4671 - Tools in Advanced Photonics (MA) Winter Semester 5.04.6570 Fundamentals of Optics (MA) 5.04.637 Laboratory Project I (BA) 5.04.646a Laboratory Project II - Laser & Optics (BA) General Internships Bachelor's Theses in the field of Laser & Optics Master's Theses in the field of Laser & Optics	Seminar	-	Prof. Dr. Martin Silies	Bachelor Master
5.04.4662	Ultrashort Laser Pulses Monday: 10:00 - 12:00, fortnightly (from 07/04/25) Thursday: 13:00 - 16:00, fortnightly (from 17/04/25) Description:	Lecture	-	Ulrich Teubner	Master
5.04.201a Ü2	Exercises to Thermodynamics and Statistics Thursday: 12:00 - 14:00, weekly (from 17/04/25) Description:	Exercises	2	Prof. Dr. Niklas Nilius Bo-Yi Zhong, Ph.D. Erkout Ouzoun, M. Sc.	Bachelor
5.04.4586	Digital Signal Processing Monday: 16:00 - 18:00, weekly (from 07/04/25) Description: Engineering Physics: Alternative für Signal- und Systemtheorie Engineering Physics: Alternative für Signal- und Systemtheorie	Lecture	2	Prof. Dr. Simon Doclo	Master
5.04.878 W	Anleitung zum selbstständigen wissenschaftlichen Arbeiten Quantenbiologie und Computerphysik The course times are not decided yet. Description:	Seminar	-	Prof. Dr. Ilia Solov'yov	Bachelor Master
5.04.614 Ü1	Exercises to Electrodynamics and Optics Tuesday: 12:00 - 14:00, weekly (from 15/04/25) Description: Basics of Electrostatics Matter in an electric field The magnetic field Electrical circuits Motion of charges in electric and magnetic fields Magnetism in matter Induction Electromagnetic waves Light as electromagnetic wave Basics of Electrostatics Matter in an electric field The magnetic field Electrical circuits Motion of charges in electric and magnetic fields Magnetism in matter Induction Electromagnetic waves Light as electromagnetic wave	Exercises	2	Prof. Dr. Martin Silies TutorInnen, der Physik	Bachelor
5.04.241a	Numerical Methods Tuesday: 08:00 - 10:00, weekly (from 08/04/25) Description: Themen der Veranstaltung sind endliche Zahlendarstellung und numerische Fehler, grundlegende numerische Methoden (Differentiation und Integration), lineare und nichtlineare Gleichungssysteme, Funktionenminimierung, Modellierung von Messdaten, diskrete Fouriertransformation, gewöhnliche und partielle Differentialgleichungen, sowie weitere grundlegende numerische Methoden. In der Übung werden die in der Vorlesung erlernten numerischen Methoden teilweise selbst implementiert (programmiert) und auf physikalische Problemstellungen aus Mechanik, Elektrodynamik etc. angewandt. Die Studierenden erlangen theoretische Kenntnisse der grundlegenden numerischen Methoden sowie praktische Fertigkeiten zur Anwendung dieser theoretischen Kenntnisse zur Modellierung und Simulation physikalischer Phänomene auf dem Computer. Themen der Veranstaltung sind endliche Zahlendarstellung und numerische Fehler, grundlegende numerische Methoden (Differentiation und Integration), lineare und nichtlineare Gleichungssysteme, Funktionenminimierung, Modellierung von Messdaten, diskrete Fouriertransformation, gewöhnliche und partielle Differentialgleichungen, sowie weitere grundlegende numerische Methoden. In der Übung werden die in der Vorlesung erlernten numerischen Methoden teilweise selbst implementiert (programmiert) und auf physikalische Problemstellungen aus Mechanik, Elektrodynamik etc. angewandt. Die Studierenden erlangen theoretische Kenntnisse der grundlegenden numerischen Methoden sowie praktische Fertigkeiten zur Anwendung dieser theoretischen Kenntnisse zur Modellierung und Simulation physikalischer Phänomene auf dem Computer.	Lecture	-	Prof. Dr. Volker Hohmann, Dipl.-Phys.	Promotion Bachelor Master
5.04.616	Mathematical Methods for Physics and Engineering II Friday: 12:00 - 14:00, weekly (from 11/04/25) Description: %%aim/ learning outcomes%% To obtain advanced knowledge in application of mathematical methods to solve problems in physics and engineering %%content%% Matrices and vector spaces (linear vector spaces, basis, norm, matrices, matrix operations, determinant, inverse matrix, eigenvalue decomposition) Quadratic forms Linear equations (Gauss elimination, least-squares solution) Functions of multiple variables (stationary points, constrained optimisation using Lagrange multipliers) Fourier series %%aim/ learning outcomes%% To obtain advanced knowledge in application of mathematical methods to solve problems in physics and engineering %%content%% Matrices and vector spaces (linear vector spaces, basis, norm, matrices, matrix operations, determinant, inverse matrix, eigenvalue decomposition) Quadratic forms Linear equations (Gauss elimination, least-squares solution) Functions of multiple variables (stationary points, constrained optimisation using Lagrange multipliers) Fourier series	Lecture	2	Prof. Dr. Simon Doclo	Bachelor
5.06.M203 Ü	Exercise to Simulation of Renewable Energy Systems Monday: 10:00 - 12:00, weekly (from 14/04/25) Description: Introduction to Software for the Simulation of Renewable Energy Systems Introduction to Software for the Simulation of Renewable Energy Systems	Exercises	2	Andreas Günther Dr. Martin Knipper Dr.-Ing. Herena Torio	Master
5.04.233a	Physical Metrology Monday: 10:00 - 12:00, weekly (from 07/04/25) Description:	Lecture	2	Prof. Dr. Philipp Huke	Bachelor
5.04.692a	Laser Safety Instruction Dates on Thursday, 10.04.2025 15:00 - 16:00 Description: The Laser-Safety Instructions are mandatory to everyone who is working in the optical laboratories in Emden. A refreshment is needed every year. Usually, the instructions are offered twice in a semester, usually at the beginning. The instructions are not specific for a certain course, but we try to implement it there. Make sure, that you join one of the courses. You can even join it a semester ahead if you don't know when you are starting a project. In-between instructions are not offered. The introductions are required: Summer semester 5.04.632 Basic Laboratory II (BA) 5.04.4671 - Tools in Advanced Photonics (MA) Winter Semester 5.04.6570 Fundamentals of Optics (MA) 5.04.637 Laboratory Project I (BA) 5.04.646a Laboratory Project II - Laser & Optics (BA) General Internships Bachelor's Theses in the field of Laser & Optics Master's Theses in the field of Laser & Optics The Laser-Safety Instructions are mandatory to everyone who is working in the optical laboratories in Emden. A refreshment is needed every year. Usually, the instructions are offered twice in a semester, usually at the beginning. The instructions are not specific for a certain course, but we try to implement it there. Make sure, that you join one of the courses. You can even join it a semester ahead if you don't know when you are starting a project. In-between instructions are not offered. The introductions are required: Summer semester 5.04.632 Basic Laboratory II (BA) 5.04.4671 - Tools in Advanced Photonics (MA) Winter Semester 5.04.6570 Fundamentals of Optics (MA) 5.04.637 Laboratory Project I (BA) 5.04.646a Laboratory Project II - Laser & Optics (BA) General Internships Bachelor's Theses in the field of Laser & Optics Master's Theses in the field of Laser & Optics	Seminar	-	Prof. Dr. Martin Silies	Bachelor Master
83 Seminars